KR20150122546A

KR20150122546A - All-powerful treatment system

Info

Publication number: KR20150122546A
Application number: KR1020140049016A
Authority: KR
Inventors: 강성탁
Original assignee: 강성탁
Priority date: 2014-04-23
Filing date: 2014-04-23
Publication date: 2015-11-02

Abstract

The present invention is to provide an all-purpose processing system. According to the present invention, the all-purpose processing system comprises: a casing (10) in which a space part for receiving a processing object is included therein and an inlet (12) into which the processing object is injected is provided on at least one side surface thereof; a rotor (20) in which a plurality of support wings (22) for supporting the processing object are radially arranged with respect to the center and mounted inside the casing (10) to be rotatable, and which rotates the processing object around the center while being rotated by a rotation unit; and an element supply unit included inside the casing (10) to supply effective elements for processing the processing object mounted on the rotor (20).

Description

All-powerful treatment system

TECHNICAL FIELD The present invention relates to a universal processing system, and more particularly, to a new universal processing system capable of processing a wide variety of food products, such as vegetables, fruits, meat, fish,

In the case of fruit (eg, apple or pear) or plants (eg, potato or carrot) in the form of a lump of a certain size, the processing method is quite limited, It is impossible to carry out secondary processing in a different form, and therefore they are inevitably processed into a well-known simple cooking form and can not be provided to consumers as processed foods. In order to make the fruit or plant of the tubular shape which can not be changed in shape in such a way as to be secondarily processed and to be provided to the consumer as a processed food having a unique aesthetic sense, the secondary processing must be performed manually, There is a problem in that the manufacturing cost of the product as the processed food having aesthetic feeling is raised, and the sanitary problem is caused by the work done by borrowing the hand of the operator. In some cases, sliced fruit (tangerines, apples, pears, etc.) is sliced into small pieces and then dried and sold.

On the other hand, fish, beef, lamb, and pork are eaten by adding sauce (sauce) and baked or cooked. In this case, depending on the characteristics of the food, after the food is immersed in the sauce, It is common to bake or to eat the sauce on the surface of the food, then bake or cook it on the spot.

However, since the sauce can not penetrate evenly into the inner surface of the food, the taste of the food through the sauce is not constant or the first object can not be achieved sufficiently. Also, when the sauce is cut or the sauce is roasted on the outer surface, the sauce is burned due to the strong fire, and when the sauce is consumed, there is a disadvantage that it is unhealthy.

Also, since people eat food that is cooked by curing, that is, by hot working, most foods are processed hot. Also, nowadays, the dietary pattern is increasingly dependent on foodstuffs that have been mass-processed using large-scale facilities rather than depending on individual dishes in the kitchen. One of the commonly used methods of hot working is so-called "baking or roasting" in which heat is applied in the absence of moisture. When frying in the kitchen, fry in a pot or pot with low heat while hand stirring. However, when a large amount of food is to be roasted or roasted, it is difficult for a person to directly wet it. Therefore, a device for stirring the food in the large pot by means of several wings pivoting around the central axis is used. However, since these conventional equipments can not be mixed well, some of the food may be burned or burned, and the biggest disadvantage is that all the processes except the wetting must be done by hand.

Korean Patent Publication No. 1999-0042842 (published on June 15, 1999) Korean Patent Laid-Open No. 10-2004-0108204 (published on December 23, 2004) Domestic registered patent No. 10-0867198 (Registered on October 30, 2008)

SUMMARY OF THE INVENTION The present invention has been developed to solve the above-mentioned problems, and an object of the present invention is to provide a new versatile food which can be processed in a wide range, including all kinds of foods such as vegetables, fruits, Processing system.

According to an aspect of the present invention, there is provided an image forming apparatus including: a casing having a space for receiving an object to be processed therein and having an inlet for inputting an object to be processed on at least one side thereof; A plurality of support wings for supporting an object to be processed are disposed radially with respect to a central portion of the rotor, rotatably mounted in the casing, rotated by the rotation unit to rotate the object about its center; And a component supply unit provided inside the casing to supply an effective component for machining to the object mounted on the rotor.

Wherein the component supply unit comprises: a micro bubble nozzle for supplying water molecules that are water-crushed to the object to be processed in the container mounted on the rotor; A general water nozzle for supplying general washing water to the object to be processed; And a steam nozzle for supplying steam to the object to be processed, wherein the micro bubble nozzle, the general water nozzle, and the steam nozzle constitute a water nozzle assembly.

Wherein the component supply unit includes an air flow supply unit for supplying air to the object to be processed in the tray mounted on the rotor for constant temperature, humidity and dehumidification; A sterilizing lamp unit for sterilizing the object; A far infrared ray supplying unit for supplying a far infrared ray to the object to be processed; Wherein the water nozzle assembly, the airflow supply unit, the sterilizing lamp unit, the far-infrared ray supply unit, and the source supply unit are respectively open to the front end facing the rotor, And the opening of the housing is configured to be opened and closed by a door.

The door is provided for each of the housings for partitioning the water nozzle assembly, the airflow supply unit, the sterilizing lamp unit, the far-infrared ray supply unit, and the source supply unit, and is individually opened and closed.

Wherein the water nozzle assembly, the airflow supply unit, the sterilizing lamp unit, the far-infrared ray supply unit, and the source supply unit are disposed at positions opposed to each other with respect to the rotor so as to face opposite sides of the object to be processed, To supply the processing component.

Wherein the rotor is supported by a reinforcing supporter at a rear end portion at a front end portion of the rotor, the reinforcing supporter having a central reinforcing support plate coupled to a central portion of the rotor and a plurality of support arm pieces disposed radially in the reinforcing support plate, And is coupled to each support wing which is branched in the radial direction.

The shaft provided at the center of the rotor is constituted by a hollow tube and is rotatably mounted on the front and rear surfaces of the casing. A cooling water pipe is provided in the shaft, and a cooling water supply device is connected to the cooling water pipe do.

A bottom plate provided inside the casing; And an oven provided below the bottom plate.

The bottom plate is formed with a vent hole and the vent hole is configured to be closed by a shield plate.

The bottom plate is inclined to the casing, and the bottom plate further includes a flow guide groove.

Wherein the air circulation device is connected to an inlet port and an outlet port provided in the casing, and the air circulation device includes a deodorization unit and a sterilization unit at the rear end of the warm air unit, The first mode part and the second mode part are sequentially arranged at the rear end of the sterilizing unit and the condenser, the evaporator 47, The defroster unit 48 and the defroster unit 48 are sequentially provided at the rear end of the sterilizing unit.

The casing is provided with an air flow supply unit at both opposed positions with respect to an intermediate rotor. The air flow circulation unit is connected to the pair of opposed air flow supply units, and the connection pipe between the air flow supply unit and the air flow circulation unit And a valve is provided in a connection pipe between the air circulation device, the inlet port and the outlet port.

And a drying chamber provided on a connection pipe between the air circulation device and the casing, wherein the drying room and the air flow supply end of the air flow circulation device and the inlet port of the drying room are connected via a bypass pipe, The bypass pipe is provided with two valves.

And the casing is provided with a valve for discharging contaminating airflow in the internal space portion.

The present invention relates to a machining apparatus for machining an object to be machined, comprising: a casing provided with a space for inserting an object to be machined therein; at least one side surface of which is provided with a slot for inputting an object to be machined; and a plurality of support wings for supporting the object, A rotor rotatably mounted in the casing and rotated by the rotation unit so as to rotate the object with respect to the center of the object; and a rotor provided inside the casing for supplying an effective component for machining to the object mounted on the rotor The main effect is that the food can be widely processed if it is necessary to process all kinds of food such as vegetables, fruits, meats, fish, and the like.

1 is a perspective view schematically showing a structure of a universal machining system according to the present invention;
Fig. 2 is an enlarged perspective view of the main part shown in Fig.
3 is a view schematically showing a coupling structure between a furnace and a shield plate, which is a main part of the present invention.
Figure 4 is a front view schematically illustrating the structure of the present invention;
5 is a front view showing an enlarged state of the main part of Fig. 4
6 is a front view showing the external structure of the present invention
7 is a rear view of Fig. 6
8 is a perspective view schematically showing an enlarged structure of a water nozzle assembly, which is another essential part of the present invention.
Figure 9 is a perspective view showing the opposed arrangement of the water nozzle assembly of Figure 8;
10 is a view schematically showing the structure of the present invention
11 is a view schematically showing a coupling structure of a door which is a main part of the present invention
12 is a front view schematically showing a structure of a rotor fixing device which is a main part of the present invention
13 is a view showing a structure of another embodiment of the present invention
14 is a view showing the structure of an air circulation apparatus constituting the present invention

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. The objects, features and advantages of the present invention will be more readily understood by reference to the accompanying drawings and the following detailed description. In the following description of the present invention, a detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear.

In describing the components of the present invention, terms such as first, second, A, B, (a), and (b) may be used. These terms are intended to distinguish the constituent elements from other constituent elements, and the terms do not limit the nature, order or order of the constituent elements. When a component is described as being "connected", "coupled", or "connected" to another component, the component may be directly connected or connected to the other component, Quot; may be "connected,""coupled," or "connected. &Quot;

Referring to the drawings, a universal machining system according to the present invention includes a casing 10 having a space for inserting an object to be processed therein, at least one side of which is provided with a slot 12 for inputting an object to be processed, A plurality of support wings 22 supporting the support wings 22 are disposed in the radial direction with respect to the center and are rotatably mounted in the casing 10 and rotated by the rotation unit to rotate the object with respect to the center thereof And a component supply unit provided inside the casing 10 to supply an effective component for machining to the object to be machined mounted on the rotor 20 so that various types of food can be universally machined .

The casing 10 has a front and a rear surface, and a space between the front surface and the rear surface of the casing 10 is provided with a space for processing objects (mainly food) to be processed. The casing 10 has a side wall portion aligned with the outer bottom portion and a ceiling panel 11 coupled to an upper end portion of the side wall portion. The ceiling panel (11) is formed in a cylindrical shape in cross section and has an engaging support piece extending in a direction opposite to the lower end of the ceiling panel (11). The ceiling panel (11) The ceiling panel 11 can be detachably coupled to the upper portion of the casing 10 by fixing the coupling support pieces of the panel 11 and fixing them with fasteners such as bolts and nuts. At this time, the ceiling panel 11 is composed of a light-transmitting plate capable of receiving sunlight. The ceiling panel 11 is a transparent or semi-transparent plate structure through which sunlight passes. An inlet port IP is provided on a front surface of the casing 10 and an outlet port OP is provided on a rear surface of the casing 10. The height of the outlet port (OP) is higher than the height of the inlet port (IP). Further, a cleaning mouth (CH) is provided on the rear surface of the casing (10). The cleaning mouth (CH) can be blocked with a blocking plate fixed by fasteners such as bolts and nuts, and when the person needs to enter the cleaning mouth (CH), the blocking plate can be removed. A shelf is provided on each side wall of the casing (10), and a mouth opening (12) communicating with the inside and outside of the casing (10) is provided above the shelf. The molten metal inlet 12 is configured so as to be able to be sealingly closed by the door DO in the casing 10 during processing of the object to be processed. The door DO may be a door DO configured to be pivotally openable and closable by a hinge portion at the upper end thereof or a sliding door DO coupled to the sliding rail SL. It is important that the present invention has a structure in which the door DO can sealingly close the opening 12 of the casing 10 when the object to be processed is processed in the space inside the casing 10. [

The rotor 20 includes a shaft provided at a central portion and a support wing 22 radially arranged at a periphery of the shaft. The support wing 22 is a rectangular box shape having front and rear faces and a front end open. The support wings 22 are joined to a rectangular box-shaped harvester 2 inside the support wings 22. Of course, the teat 2 coupled to the support wing 22 is kept in a state of being firmly inserted into the support wing 22 by the locking means provided in the support wing 22 without falling off. The locking means comprises a locking king pin hole formed in the support wing 22 and a lock king pin connected to the support wing 22 by a wire 28 and fitted in a locking pin hole, The lock pin is supported on the end of the tape 2 so that the tape 2 is pulled out through the insertion port 12 on the distal end side of the support wing 22 Is prevented. The locking means is not limited to the lock king pin and the lock king pin hole but can be employed as any means for preventing the teat 2 from coming off the support wing 22 as a clamp for fixing the teat 2 to the support wings 22 You should understand.

In addition, the rotor 20 is supported by the reinforcing supporter 24 at the rear end portion at the front end portion. The reinforcing supporter 24 has a plurality of support arm pieces 24b disposed at the central portion of the rotor 20 and arranged radially in the reinforcing support plate 24a, To the respective support wings 22, which are branched in the radial direction of the support wings. The support arm piece 24b is fixed to the outer side of each support wing 22 of the rotor 20 by a fastener such as a bolt. The thickness of the reinforcing support plate 24a is much thicker than the thickness of the plates constituting the rotor 20. [ If the plate thickness of the rotor 20 is about 1 to 2 mm, the thickness of the reinforcing supporter 24 is about 10 mm. The shaft of the rotor 20 is composed of an outer shaft having a square cross section and having a proximal end portion of the support wing 22 joined together and an inner shaft incorporated in the outer shaft. The front plate and the rear plate constituting the front plate and the rear plate are rotatably connected via a lubrication connection such as a bearing. The inner shaft provided at the center of the rotor 20 is constituted by a hollow tube and is rotatably mounted on the front and rear surfaces of the casing 10 and a cooling water pipe PL is provided inside the inner shaft And a cooling water supply device is connected to the cooling water pipe PL. So that the cooling water can be circulated into the center shaft of the rotor 20. Of course, the cooling water pipe can be held in place by a separate supporter outside the casing.

The trays 2 may be configured such that a plurality of trays 2 are inserted into the support wings 22 of the rotor 20 while a plurality of holes communicating with the inside and outside of the trays 2 are formed. Rather than a single wicket 2 being inserted into the support wing 22 of the rotor 20, a plurality of wicket 2 divided into a plurality of wickets 2 are configured to be inserted and mounted in the support wings 22 of the rotor 20 You can.

A sprocket is provided in a shaft (inner shaft portion) of the rotor 20, and the sprocket is connected to a drive sprocket provided on a motor shaft of the drive motor through a chain so that when the motor shaft of the drive motor is rotated, Can be rotated in the inner space of the casing 10 with respect to the central shaft. The drive motor, the drive sprocket, the chain, and the sprocket of the inner shaft constitute a rotation unit. At this time, the shaft rotatably coupled to the casing 10 of the rotor 20 is rotated by the stopping means so that each support wing 22 of the rotor 20 rotates in the same direction as the feeding opening 12 of the casing 10, (That is, a state in which the insert portion of the teat 2 at the tip of the support wing 22 is in contact with the tapping inlet 12 of the casing 10). In the present invention, the fixing block 26 provided on the inner shaft of the rotor 20 and having a plurality of bars 27 in the radial direction is provided with a bar 27 and a fixing support (Such as a chain) connected to a ground (e.g., ground). When the fixing wire 28 is connected to a fixed support such as a ground or the like, the rotor 20 is not rotated so that each support wing 22 of the rotor 20 is aligned with the feeding opening 12 of the casing 10 The rotor 20 can be rotated with respect to the casing 10 by releasing the fixing wire 28 from being fixed on the ground or the like. At this time, it is of course possible to employ both means for stopping the rotor 20, in addition to the fixed block 26 and the fixed wire 28 provided with the windmill-type bar 27.

The present invention includes a component supply unit provided inside the casing (10) as a key component for supplying an effective component for machining to the object mounted on the rotor (20). In the present invention, in particular, the component supply section includes a water nozzle assembly (NA), an air flow supply section 35, a sterilizing lamp section 36, and a far infrared ray supply section 37, and a source supply section 38 ).

The rotor 20 is rotatably coupled to a casing 10 at its center shaft so as to be rotatably coupled to the inner space of the casing 10 and rotates between both side wall portions of the casing 10 And is provided with a water supply nozzle 35 for supplying a source of the seasoning to the water nozzle assembly NA, the airflow supply part 35, the sterilizing lamp part 36, the far-infrared ray supply part 37, (38) are provided at a pair of opposite positions with respect to the rotor (20).

A pair of housings HO opposed to each other are provided at both left and right positions of the rotor 20 (that is, both side walls of the casing 10). Each of the housings (HO) is arranged at a predetermined interval in the vertical direction at the side wall of the casing 10. [ That is, the HO group includes a housing HO for the water nozzle assembly (NA) provided on the side wall of the casing 10, a housing HO for the airflow supply unit 35, a sterilizing lamp unit 36, A housing HO for a far infrared ray supply unit 37, and a housing HO for a source supply unit 38. [ Each of the housings (HO) is provided with an opening at a front end facing the rotor (20). And each of the housings (HO) is configured in a cross-sectional channel shape such that a front end portion thereof facing the rotor 20 is opened. However, the housing (HO) for the airflow supply part 35 is structured such that not only the front end but also the base end is provided with an opening.

The opening on the distal end side of each of the housings (HO) is individually opened and closed by the door DO. In the present invention, a flange portion is provided at both ends of each housing HO (i.e., at the front and rear ends with respect to the casing 10), and the flange portion is provided with a fastener coupling hole, When the door support block FB is coupled and a fastener such as a bolt coupled to the fastener through-hole of the door support block FB is tightened in the fastener fitting hole of the flange portion, the door support block FB is fastened to the housing HO ) Can be formed. Each of the housings (HO) is provided with a sliding rail (SL) having a sectional diagonal channel shape such that end portions facing each other are arranged at the upper and lower ends. The sliding rail (SL) The upper and lower end portions of the door DO are slidably fitted to the upper and lower side sliding rails SL so that the front end side opening portion of the housing HO is clogged, When the door support block FB is coupled to both ends of the housing HO in a state where the front end side open portion is closed, the door DO is supported without being detached from the housing HO.

The water nozzle assembly (NA) comprises a micro bubble nozzle (32) for supplying water molecules crushed into the object to be processed in the teat (2) mounted on the rotor (20) A general water nozzle 33 and a steam nozzle 34 for supplying steam to the object to be processed. Three nozzles for a micro bubble nozzle 32 and a general water nozzle 33 and a vapor nozzle 34 are collectively contained in one housing HO for the water nozzle assembly NA. A micro bubble nozzle 32, a general water nozzle 33 and a vapor nozzle 34 are arranged in the vertical direction. The micro bubble nozzle 32 has a structure in which an injection hole is provided in a nozzle tube for both the general water nozzle 33 and the steam nozzle 34. The micro bubble nozzle 32 is connected to the micro bubble generator through a connection tube, The general water nozzle 33 may be connected to the general water supply device, and the steam nozzle 34 may be connected to the steam generator by a connection pipe or the like. At this time, the valve VA may be provided for each injection hole so that each of the injection holes is individually opened and closed. Particularly, it is important that the water nozzle assemblies (NA) are disposed at opposite left and right positions with respect to the rotor 20 built in the casing 10.

The airflow supply unit 35 is for supplying air to the object to be processed in the pot 2 mounted on the rotor 20 for the constant temperature, humidity and dehumidification. In this case, the airflow supply unit 35 may be connected to the airflow circulation unit 40 outside the casing 10 via a connecting means such as a pipe PL. The openings of the housing HO of the airflow supply part 35 communicate with the holes formed in the side wall of the casing 10, The outer surface of the side wall portion of the casing 10 is equipped with a rinse stopper, and the rinse is connected to the air circulation device through a pipe PL. Both the two airflow supply portions 35 inside the casing 10 are connected to the airflow circulation device 40 by the two funnels and the pipe PL. A valve (VA) is provided in the pipe (PL) connecting the air circulation unit and the air flow circulation device (40). A pipeline PL is connected between two ports of each port of the 3-port distributor and each of the ports, and a valve VA is provided in each pipeline PL.

The sterilizing lamp unit 36 has a structure in which a sterilizing lamp 36a is embedded in a housing HO provided in the casing 10. [ The sterilizing lamp 36a is turned on by the lamp driving power source and irradiates sterilizing light to the object to be processed (food or the like) mounted on the rotor 20 via the pasteter 2 so that the sterilizing action is performed. It is important that the sterilizing lamp section 36 is disposed at both left and right opposed positions with respect to the rotor 20.

The far-infrared ray supplying unit 37 may have a structure in which a far-infrared ray heater is built in the housing HO inside the casing 10. The perspective infrared heater may have a structure in which a heater coated with a far infrared ray material and a heater coated with a near infrared ray material are built in the housing HO. The workability of the object to be processed accommodated in the rotor 2 when the far-infrared ray is generated in the paste tray 2 is improved because of the far-infrared ray characteristic.

The source supply unit 38 includes a source supply pipe accommodated in the housing HO inside the casing 10 and a source injection hole provided in the source supply pipe. The source supply pipe is connected to the source reservoir outside the casing 10 PL) or the like. The valve VA may be provided so as to be opened or closed individually for each of the source spray holes provided in the source supply pipe so as to be connected to each spray hole.

The present invention is characterized in that the casing 10 is provided with a mouth filling inlet 12 on both side walls of the casing 10 so as to face the left and right sides of the rotor 20 in the casing 10, The nozzle assembly NA, the airflow supply section 35, the sterilizing lamp section 36, the perspective infrared lamp section and the source supply section 38 are provided on the upper and lower sides to constitute the water nozzle assembly NA, the airflow supply section 35, It is very important from a structural point of view that the lamp unit 36, the far-infrared lamp unit, and the source supply unit 38 are provided at both opposed positions with respect to the rotor 20.

The air circulation device 40 is connected to an inlet port IP and an outlet port OP provided in the casing 10. The air circulation device 40 is connected to the deodorization unit 30 and a sterilizing unit 42 are disposed in sequence, and a first mode part and a second mode part are partitioned at a rear end of the sterilizing unit. The first mode unit is provided with a condenser 46, an evaporator 47 and a defrosting unit 48 sequentially from the rear end of the sterilizing unit, and the second mode unit sequentially includes the evaporator 47, A defrosting unit 48 is provided. In the air circulation device (40), the first mode part and the second mode part are separated from each other and have a modular structure. That is, the evaporator 47 and the defrosting unit 48 of the second mode part can be separated and assembled separately, and the condenser 46, the evaporator 47 and the defrosting unit 48 of the first mode part can be separated and assembled separately. It is a modular structure that can be separated and assembled separately.

A valve VA is provided in a connection pipe between the air circulation device 40 and the front and rear inlet ports IP and the outlet port OP of the casing 10. The piping PL is connected between the other port of the three-port distributor and the inlet port IP provided on the front surface of the casing 10, and the outlet port OP provided on the rear surface of the casing 10, The inner space of the casing 10 is also connected to the air circulation device 40 by connecting the pipe PL between the circulation devices 40. The valve VA is provided in the piping PL between the air circulation device 40 connected to the three-port distributor and the inlet port IP of the casing 10, A valve VA is also provided in the piping PL between the air conditioner OP and the air circulation device 40. [

The present invention also includes a bottom plate 13 provided inside the casing 10 and an oven 16 provided below the bottom plate 13. [

The bottom plate 13 has two bottom plate 13 forming panels which are inclined upward and rightward with respect to the center flow guide groove 18. The two bottom plate 13 forming foaming panels are arranged at the lower ends thereof with flow guide grooves 18 in the middle of the ditch shape. Respectively. The bottom plate 13 is a plate-shaped plate extending from the front surface of the casing 10 to the rear surface of the casing 10 and a ditch-shaped flow guide groove 18 is also formed in a concave groove extending from the front surface to the rear surface of the casing 10.

The bottom plate 13 is formed with an air hole 14 communicating with the bottom surface from the top surface. A plurality of blast holes 14 may be provided in the bottom plate 13, and a furnace 16 may be provided at a lower position for each blast hole 14. The furnace 16 is provided with a flame generating device 17 inlet 12 at an outer end thereof in parallel with the side wall of the casing 10 and the inlet 12 of the flame generator 17 is opened and closed by a door DO . The furnace 16 is constructed so as to have a heat insulating function and a heat resistance so as to prevent flame heat generated in the flame generator 17, such as a heat resistant brick, from falling outside.

The vent hole 14 can be opened and closed by the shield plate 15 coupled to the top surface of the bottom plate 13. [ The shielding plate 15 has a circular plate shape with a flange portion. The shielding plate 15 is formed by tightening a fastener such as a bolt coupled with a fastener through-hole in the flange portion into a fastener fitting hole provided in the bottom plate 13, To the top. Of course, a heat-resistant packing is interposed between the shield plate 15 and the bottom plate 13 to prevent water leakage.

The casing (10) is provided with a valve (VA) for discharging contaminating airflow in the internal space portion. An external clearance space is provided above the component supply portion of the casing 10 and a valve VA mounted in the external clearance space communicates with the internal space portion of the casing 10. [ Therefore, when the valve VA is opened, contaminating air such as gas, smoke, deodorizing component, and moisture generated when the object to be processed is processed in the internal space of the casing 10 is released through the valve VA.

13 is a schematic view showing a structure of another embodiment of the present invention. 13, the air conditioner further includes a drying room 50 provided on a connection pipe between the air circulation device 40 and the casing 10, wherein the drying room 50 and the air circulation device 40 and the inlet port of the drying room 50 are connected via a bypass pipe 54. The bypass pipe 54 is provided with two valves VA. In the present invention, a two-branch distributor is provided on a pipe PL between an air flow supply end of the air circulation device 40 and a three-port distributor to connect one end of the bypass pipe 54, A two-branch distributor is provided on a pipe PL between the ports and the outlet port OP of the casing 10 and the other end of the bypass pipe 54 is connected to the two-branched distributor, And a bypass pipe 54 is connected between the air circulation device 40 and the drying room 50 via a branch distributor and two valves VA ) Is installed.

A process for universal processing of foods or the like according to the present invention having the above-described structure will be described as follows.

First, the support wings 22 of the rotor 20 are aligned with the wicking insertion ports 12 of the casing 10, and the support wings 22 of the rotor 20 are connected to the support wings 22 of the rotor 20 through the wicking insertion port 12 Push in the teabags (2). Of course, the object to be processed (foods, etc.) is contained in the teaspoon 2. At this time, the casing 10 is provided with a shelf below the tray 12 so that the tray 2 can be pushed into the support wing 22 of the rotor 20 with the shelf thereon.

After the pot 2 containing the object to be processed is inserted into each support wing 22 of the rotor 20 in this manner, when the rotor 20 is rotated by the rotation unit, each of the support wings 22 is rotated by a windmill As for the object to be processed in the teaspoon 2 provided in each support wing 22 of the rotor 20 that returns to the windmill expression, the rotor 20 is placed on both sides of the inside of the casing 10 A pair of micro bubble nozzles 32, a common water nozzle 33, a vapor nozzle 34, an air flow supply section 35, a sterilizing lamp section 36, a far infrared ray supply section 37, and a source supply section 38 are operated So that the universal processing of the object to be processed such as foods is achieved.

In the present invention, the casing 10 and the rotor 20, the microbubble nozzle 32, the water nozzle 33, the vapor nozzle 34, the airflow supply section 35, the sterilizing lamp section 36, 37 and the source supply unit 38. In the present invention, only the main body is operated or the main body and the air circulation apparatus 40 are operated together or the drying room 50 shown in FIG. 13 is operated And can be utilized as a mode for operating.

A valve VA for connecting the outlet port OP of the casing 10 and the air flow circulating device 40 is provided between the air flow circulating device 40 and the inlet port IP of the casing 10, As shown in FIG. A closed circuit utilizing only the inside of the casing 10 is formed.

When the object to be processed is a foodstuff, microbubbles, general washing water and steam are processed through the microbubble nozzle 32, the general water nozzle 33 and the steam nozzle 34 while rotating the rotor 20 in the main body only operation mode To the object. The sterilizing lamp unit 36, the far-infrared ray supply unit 37 and the source supply unit 38 are operated to irradiate the object to be processed with sterilizing light and to supply far-infrared rays, The processing of the foodstuffs is performed. When microbubbles are supplied to the foods by the microbubbles, the cleaning efficiency is further enhanced because the microbubble particles are used for cleaning, and the object to be cleaned can be cleaned by general washing water and steam. The sterilizing lamp unit 36 irradiates the sterilization light to sterilize the foodstuffs, and the far infrared rays supply the interior of the foodstuffs through the supply of the infrared rays. In the source supply unit 38, The sauce is supplied to the foodstuffs, so that a very good foodstuff processing can be done.

At the same time, through the flame supply device in the furnace 16 provided below the bottom plate 13 of the casing 10, heat is applied to process foods to be processed. In the state where the space above the bottom plate 13 of the casing 10 is filled with water to a certain level of water, the shield plate 15 closes the vent hole 14 of the bottom plate 13, The food is processed by heating the water by the flame generator (17). It is also possible to process the foodstuffs by filling the space above the bottom plate 13 with oil and boiling the oil.

On the other hand, in a state where the space above the bottom plate 13 of the casing 10 is not filled with water, the flame 14 of the bottom plate 13 is opened without engaging the shield plate 15, So that the flame of the generator 17 can be directly raised through the air holes 14 to perform the flame grilling process.

In order to simultaneously operate the main body and the airflow circulation device 40, the valve VA shown in Fig. 12 is opened and used. If the valve VA is fully opened, a circuit connected between the air circulation device 40 and the inner space of the casing 10 of the main body can be formed. In this state, the air circulation device 40 is operated together with the main body.

In the simultaneous operation mode of the main body and the air circulation device 40, the beneficial airflow generated in the airflow circulation device 40 is introduced into the space inside the casing 10 through the airflow supply part 35 provided in the casing 10, And the airflow is added together, so that the processing is performed under favorable airflow conditions for foods and the like.

When the first main damper 46a provided in the air circulation apparatus 40 is opened and the fan of the airflow circulation apparatus 40 is returned in a state in which the second main damper 47a is closed, The air is heated by the heater provided in the defrosting unit 48 as the air passes through the defrost unit 48, and then the air is cooled by passing through the evaporator 47. When cold working is required for the object to be processed, the internal saturated vapor of the casing (10) and the raised temperature are lowered while the cooled air is introduced. (Such as low-temperature drying, low-temperature aging, and the like) which is intended to be supplied to the interior of the casing 10 by supplying the inside of the casing 10 with the air cooled by the evaporator 47 when the temperature inside the casing 10 becomes higher than necessary when low temperature drying, low temperature aging, Thereby achieving the objective satisfactorily. A sterilization action is performed in which the air cooled in the evaporator 47 passes through the sterilizing unit 42 to remove harmful components and a deodorizing action is performed to remove odors passing through the deodorizing unit 30. In this way, The air enters into the internal space of the casing 10 through the airflow supply part 35 provided in the casing 10 so that the inside of the casing 10 is kept at a constant temperature and humidity, And so on. The harmful constant temperature and humidity interfering substances in the casing 10 disappear and the processing for foods and the like is also performed by the beneficial airflow.

On the other hand, if the fan of the airflow circulation device 40 is turned while the second main damper 47a provided in the airflow circulation device 40 is opened and the first main damper 46a is closed, The air is heated by the heater provided in the defrosting unit 48 as the air passes through the defrosting unit 48. The air is sequentially passed through the evaporator 47 and the condenser 46, Is dehumidified. Thus, the dehumidified air passes through the evaporator 47 and the condenser 46, passes through the sterilizing unit 42, and acts as a sterilizing function for removing harmful components. The deodorizing unit 30 removes odors And the sterilized and deodorized clean air is injected into the internal space of the casing 10 through the airflow supply part 35 provided in the casing 10. The harmful dehumidifying material inside the casing 10 disappears and the processing for the foods and the like is also performed by the beneficial airflow because the processing of the food and the like is performed by the combined action of the other constituent parts while the inside of the casing 10 is kept in the dehumidification state . The air circulation device (40) may be equipped with a warm air unit. The warm air unit can consist of a heater and a fan. The hot air unit may be provided in front of the deodorizing unit 471.

In order to operate only the drying room 50 and the air circulation device 40, all the valves VA connecting between the main body and the drying room 50 and the airflow circulation device 40 are closed and the drying room 50, (I.e., two valves VA) on the bypass pipe 54 connecting between the valves 40, Then, only the drying room 50 and the air circulation device 40 form a closed circuit through which the airflow is circulated.

In this state, the air stream generated by the air circulation device 40 is introduced into the drying room 50. In the drying room 50, a cart 52 loaded with a sesame container 2 containing objects to be processed, such as foods, So that the object to be processed such as food or the like placed on the carriage 52 can be processed.

The main body, the drying room 50, and the air circulation device 40 may be operated simultaneously by connecting the main body, the drying room 50, and the airflow circulation device 40 together. Of course, in this case, all of the valves VA connecting the main body and the drying room 50 and the air circulation device 40 may be opened.

The present invention described above has a component supply unit provided inside the casing 10 to supply an effective component for machining to the object mounted on the rotor 20, The functions and effects of the present invention are as follows.

1. A method of applying a liquid material to a chamber prepared under the rotor 20 (rotation rotor shaft) (that is, a space on the upper side of the bottom plate 13 in the casing 10) may be utilized. The liquid substance may be water, oils, seasonings, antioxidants, various plant extracts, various beneficial microorganisms (liquid substances containing lactic acid bacteria), etc., such as cold water, hot water, bubble water and ozonated water. At this time, as described above, since the shield plate 15 coupled to the bottom plate 13 closes the vent hole 14 and is tightly sealed by fixing means such as bolting, the liquid material leaks out to the outside &Lt; / RTI > At this time, a gas burner, an electric burner, a pellet burner, a firewood furnace 16, and the like may be placed under the sealed shield plate 15 (lid). A gas burner, an electric burner, or the like can be used as the flame generating device 17.

2. When the liquid material is not supplied to the chamber prepared under the rotor 20, the lower heat source is used even if the shielding plate 15 is bolted so as to block the vent hole 14 of the bottom plate 13 of the chamber There is a way to drive without. Only the inner space portion of the casing 10 is operated at the time of producing a product for another purpose. For example, it can be used when the lower part is a constant container and is used only in a structure like a pot.

In another embodiment, since the firearm in the flame generator 17 is directly lifted through the vent hole 14 by opening the bottom plate 13, it can be advantageously used for the direct-burning process. That is, when the operation is performed without injecting the liquid material into the space portion of the casing 10 provided below the rotor 20, the vent hole 14 of the inner bottom plate 13 of the casing 10 is connected to the shield plate 15 so that the direct heat source of the flame generator 17 rises through each vent hole 14 and is directly transmitted to the space inside the casing 10 so that the rotor 20 And the heat source is directly transmitted to the heat exchanger (2).

3. The nozzle section is grouped into four groups so as to oppose to each other with respect to the rotor 20, and such a nozzle section is provided long in the longitudinal direction (front-rear direction) of the casing 10. [ In the present invention, the nozzle unit includes a micro bubble nozzle 32, a general water nozzle 33, a vapor nozzle 34, and a source supply nozzle 38a. The steam nozzle group 34 is a group of superheated steam injection nozzles including wet steam. The general water nozzle 33 is a group of nozzles for using general cleaning water, water containing cold water and ozone water, and a micro bubble nozzle 32 is a group of nozzles in which microbubbles are generated by water crushing. The microbubble nozzle group is provided with a microbubble generator. The general water nozzle 33 is connected to the ozone water generator or tap water directly, Is connected to a cooling chamber in which cooling water is produced in an apparatus provided with a cooling device, and the steam nozzle (34) is connected to a wet steam boiler or a superheated steam boiler steam discharge outlet. Further, the group of the source supply nozzles 38a is a nozzle through which the liquid of the seasoning is sprayed.

Therefore, a teaspoon 2 is inserted into each support wing 22 of the rotor 20, and a perforated hole is formed in the entire surface of the teat 2, so that the seasoning source liquid The process of applying the intended seasonings to the processed food to be processed is carried out since the oil is directly contacted with the surface of the processed product in the teat (2) (i.e., foods, etc.). Liquid spices close to the gas are sprayed directly into the processed product in the form of mist, which becomes a source of stimulation of the texture such as taste and texture of the processed product. Of course, the source liquids can be produced in various kinds. When the group of the source supply nozzles 38a is used in particular, the source supply nozzle 38a is provided with a terpene having components such as an antioxidant component and a phytoncit, a fragrance component that fills the fragrance of the processed product, a liquid component An apparatus may be provided in which various liquid spraying materials are provided for making high-quality consumer characteristics of a product to be processed. In another embodiment, extracts of herbal medicines or raw hay fever ingredients or various mushroom extracts made by various microorganisms can be sprayed from the group of source supply nozzles 38a. In addition to mushroom extracts, various herbs of plants can be supplied, and various liquid extracts such as blueberries, brambles, red ginseng, mushroom, shiitake mushrooms, garlic, etc. may also be supplied as processable components.

4. The effect of microbubbles sprayed through the microbubble nozzle 32 is also high. When the sterilizing frequency is transmitted and operated as wave energy, the group of microbubble nozzles 32 is activated. When the microbubble-like water particles are already exposed to the inner space of the casing 10 and are floating and saturated, The sterilizing frequency is directly irradiated on the liquid material having a minute sterilizing frequency to make sterilizing harmful bacteria in the casing 10 more sterile.

5. The water nozzle assembly NA, the airflow supply portion 35, the sterilizing lamp portion 36, the far-infrared ray supply portion 37, and the source supply portion 38 are disposed at positions opposed to each other with respect to the rotor 20 (2) of the rotor (20) to supply machining components at both opposed positions of the object to be machined. By supplying the machining components at both opposite positions of the rotor (20) There is an effect that the collision energy is generated between the magnets in the internal space of the casing 10, and the processing efficiency is improved by about 7 to 10 times by the generation of the collision energy. Thus, the component supply section including the water nozzle assembly (NA), the airflow supply section 35, the sterilizing lamp section 36, the far-infrared ray supply section 37 and the source supply section 38, The importance of being placed in the position of being large.

6. A door DO which is individually opened and closed for each of the water nozzle assembly NA, the airflow supply section 35, the sterilizing lamp section 36, the far-infrared ray supply section 37 and the source supply section 38 is mounted, Since the door DO to the part is closed, there is an effect that the protection against the unused part can be surely performed.

7. Since the ceiling panel 11 (upper roof material) of the casing 10 is provided with a transparent roof such as polycarbonate having heat resistance, heat-resistant tempered glass, quartz glass, etc., and sunlight is irradiated and put into the chamber, It can be accommodated positively. In case of drying the solar chrysanthemum, sunlight enters through the transparent ceiling panel (11), which is satisfactory for processing the solar chilies. That is, when the ceiling panel 11 is a transparent roof, it is more preferable because it can be suitably used in the production of solar chili by direct irradiation of solar energy.

8. The bottom plate 13 is provided in the space portion of the casing 10 provided below the rotor 20 so that the bottom plate 13 is downwardly opposed to the flow guide groove 18 in the center Contaminants such as contaminating oil generated during the processing of the object to be processed flow down the bottom plate 13 and enter the flow guide groove 18 so that the flow guide groove 18 For example, a variety of food-grade oil flows down the inclined bottom plate 13 and flows through the flow guide grooves 18 (18) So that the collected beneficial ingredient can be taken out of the casing 10 and put in the container through the valve device.

9. By using the air circulation device 40 in combination, the discharged airflow generated in the airflow circulation device 40 can be supplied to the upper portion of the casing 10 from below the casing 10, And is then discharged from the outlet port OP of the casing 10 to remove the moisture or contaminating airflow that has arrived at the inlet port of the airflow circulation device 40 so that the desired airflow And supplies the air to the air space supply portion 35 provided in the casing 10 and the internal space portion of the casing 10 through the air supply end of the air circulation device 40 do. Therefore, the inside of the casing 10 performs the functions such as sufficient dehumidification, cooling, hot air, sterilization, deodorization, far infrared ray and near infrared ray energy supply as intended. This beneficial airflow continues to serve its intended role in the continuous circulation process between the casing 10 and the airflow circulation device 40.

10. In the present invention, the furnace 16 surrounding the heat source is composed of a heat insulating material, so that the heat generated by the flame generator 17 is directed to the upper point of the inner space of the casing 10 (Heat insulating material), so that the heat generated from the heat source is no longer unnecessarily radiated to another place.

11. A plurality of valves VA are provided at left and right sides adjacent to the ceiling panel (roof tongue) of the casing 10 at regular intervals to discharge airflow, smoke, polluting gas, and the like in the casing 10. [ It is meaningful that the harmful component can be discharged smoothly during the machining operation.

12. The present invention is beneficially utilized in the manufacture of sintered bodies. Since the required temperature for firing is about 800 to 1300 DEG C, the inside of the firing furnace needs to be converted into a material capable of withstanding high heat in the form of a ceramic. The cooling fluid flows to the shaft of the center portion of the rotor 20 of the casing A cooling water pipe is provided so as to be able to withstand the cooling water circulating at a predetermined temperature.

13. The present invention can be switched to a mode in which the main body, the air circulation device (40), and the car (52) can simultaneously use the dry room (50). When the predetermined airflow is used in the main body, the energy remaining in the main body is utilized again, and the remaining energy of the remaining energy in the main body is used in the drying room 50 and then connected to the air circulation device 40, , The hot air, the hot air, the deodorization, the sterilization, the humidification and the like, and the air flow prepared again is put into the main body to perform its original role, and after being faithfully played in the main chamber, And then discharged to the upper portion of the drying chamber after the remaining energy value is sufficiently exhausted. The discharged airflow is again introduced into the airflow circulation apparatus 40 to make a new airflow necessary, And is continuously circulated. Therefore, a separate drying room 50 (dense drying room 50 of the truck 52) is manufactured and connected to the flow path of the airflow circulation device 40, so that the remaining energy is recycled, It is highly valued as a production facility.

The specific embodiments of the present invention have been described above. It is to be understood, however, that the scope and spirit of the present invention is not limited to these specific embodiments, and that various modifications and changes may be made without departing from the spirit of the present invention. If you have, you will understand.

Therefore, it should be understood that the above-described embodiments are provided so that those skilled in the art can fully understand the scope of the present invention. Therefore, it should be understood that the embodiments are to be considered in all respects as illustrative and not restrictive, The invention is only defined by the scope of the claims.

2. Tissue 10. Casing
11. Ceiling panel 12. Input port
13. Bottom plate
15. Shield plate 16. Oven
17. Flame Supply 18. Flow guide groove
20. Rotor 22. Support Wings
24. Reinforcement supporter 24a. Reinforcement support plate
24b. Support arm piece 26. Fixing block
27. Bar 28. Wire
32. Micro bubble nozzle 33. Plain water nozzle
34. Steam nozzle 36. Sterilization lamp section
36a. Sterilizing lamp 38. Source supply
38a. Source supply nozzle 40. Air circulation device
50. Dry Room 52. Bogies
54. Bypass tube VA. valve
CH. Cleaning station IP. Inlet port
OP. Outlet port HO. housing
DO. Door PL. pipe
SL. Sliding rail FB. Door support block

Claims

A casing (10) having a space for inserting an object to be processed therein and having a charging port (12) for charging an object to be processed;
A plurality of support wings (22) for supporting an object to be processed are arranged in a radial direction with respect to a central portion and are rotatably mounted in the casing (10), and rotated by the rotation unit, (20);
And a component supply unit provided in the casing (10) to supply an effective component for machining to the object to be machined mounted on the rotor (20).

The method according to claim 1,
The component supply unit includes:
A micro bubble nozzle (32) for supplying water molecules crushed into the object to be processed in the pot (2) mounted on the rotor (20);
A general water nozzle (33) for supplying water to the object to be cleaned;
And a steam nozzle (34) for supplying steam to the object to be processed,
Wherein the micro bubble nozzle (32), the general water nozzle (33) and the steam nozzle (34) constitute a water nozzle assembly (NA).

3. The method of claim 2,
The component supply unit includes:
An airflow supply part (35) for supplying air to the object to be processed in the pot (2) mounted on the rotor (20) for constant temperature, humidity and dehumidification;
A sterilizing lamp unit 36 for sterilizing the object to be processed;
A far infrared ray supplying unit (37) for supplying a far infrared ray to the object to be processed;
And a source supply unit (38) for supplying a component of condiments to the object to be processed,
The water nozzle assembly NA, the airflow supply unit 35, the sterilizing lamp unit 36, the far-infrared ray supply unit 37, and the source supply unit 38 are respectively opened at the front end facing the rotor 20, And the opening (HO) of the housing (HO) is configured to be opened and closed by a door (DO).

The method of claim 3,
For each housing HO partitioning the water nozzle assembly NA, the airflow supply section 35, the sterilizing lamp section 36, the far-infrared ray supply section 37 and the source supply section 38, DO) are provided so as to be individually opened and closed.

The method of claim 3,
The water nozzle assembly (NA), the airflow supply part (35), the sterilizing lamp part (36), the far infrared ray supplying part (37) and the source supplying part (38) are opposed to each other with respect to the rotor So as to supply the machining component at both opposed positions of the object to be machined which is placed in the toothbrush (2) and mounted on the rotor (20).

6. The method of claim 5,
The rotor 20 is supported at its rear end by a reinforcing supporter 24. The reinforcing supporter 24 has a central reinforcing support plate 24a coupled to a central portion of the rotor 20, Wherein a plurality of support arm pieces (24b) radially arranged on a support plate (24a) are coupled to respective support wings (22) which are branched in the radial direction of the rotor (20).

The method according to claim 6,
The shaft provided at the center of the rotor 20 is constituted by a hollow tube and is rotatably mounted on the front and rear surfaces of the casing 10. The cooling water pipe PL is provided in the shaft, (PL) is connected to a cooling water supply device.

The method according to claim 1,
A bottom plate 13 provided inside the casing 10;
And an oven (16) provided below the bottom plate (13).

9. The method of claim 8,
Characterized in that a vent hole (14) is formed in the bottom plate (13) and the vent hole (14) is closed by a shielding plate (15).

9. The method of claim 8,
Wherein the bottom plate is inclined to the casing and the bottom plate is further provided with a flow guide groove.

The method of claim 3,
The air circulation apparatus 40 further includes an inlet port IP provided in the casing 10 and an outlet port OP connected to the outlet port OP, The dehumidifying unit 30 and the sterilizing unit 42 are sequentially arranged at the rear end of the warm air unit 20 and the rear end of the sterilizing unit is connected to the first mode part and the second Wherein the first mode part is provided with a condenser (46), an evaporator (47), and a defrosting unit (48) sequentially from the rear end of the sterilization unit, and the second mode part is provided at the rear end of the sterilization unit Characterized in that an evaporator (47) and a defrosting unit (48) are provided in sequence.

12. The method of claim 11,
The casing 10 is provided with an airflow supply unit 35 at both opposed positions with respect to the intermediate rotor 20 and the airflow circulation unit 40 is connected to the pair of opposed airflow supply units 35 And a valve VA is provided in a connection pipe between the airflow supply unit 35 and the airflow circulation apparatus 40. The airflow circulation apparatus 40 is connected to the inlet port IP and the outlet port OP, And a valve (VA) is provided on a connecting pipe between the first and second pipes.

13. The method of claim 12,
Further comprising a drying room (50) provided on a connection pipe between the air circulation device (40) and the casing (10), wherein an air flow supply end of the drying room (50) and the air flow circulation device Wherein the inlet port of the drying chamber 50 is connected via a bypass pipe 54 and the bypass pipe 54 is provided with two valves VA.

3. The method of claim 2,
Characterized in that the casing (10) is provided with a valve (VA) for discharging contaminating air flow in the internal space part.